Regression of Thermal, Thermodynamic, and Transport Properties for the Optimization of Multi-Component Polymer-Solvent Drying Processes.
Abstract not provided.
Parrish, Chance↗
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Results for “Transport Properties”
Search indexed NASA NTRS and DOE OSTI research on propulsion, heat transfer, battery materials and energy systems. Follow report and document links to the original sources.
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Prospects for computing plasma transport properties on quantum computers.
Abstract not provided.
Baczewski, Andrew David↗
Electrical Transport Properties of SiGeSn Alloys
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Allemang, Christopher Richard↗
Numerical Simulations of Compaction of Salt Rubble for Use in Predictions of Fluid Transport Properties
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Guilkey, James Edward [Sandia National Laboratorie↗
THE ROLE OF TRANSPORT PROPERTIES IN THE PROBLEMS OF JET ENGINES AND ROCKETS
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Bartz, D. R.↗
Recent Advances Concerning the Transport Properties of Dilute Gases
Intermolecular potential energy functions, heat conduction in chemically reacting gases, and heat conductivity of polyatomic gases
CONDUCTION↗
Transport Properties of Partially Ionized Nitrogen. I - the Collision Integrals
Collision integrals for partially ionized nitrogen plasma particles
IONIZED GAS↗
A Study of Gas Solubilities and Transport Properties in Fuel Cell Electrolytes Second Semiannual Report, Mar. 1 - Aug. 31, 1966
Density and vapor pressure measurements for and gas solubility and oxygen and hydrogen diffusivities in potassium hydroxide solutions
GASEOUS DIFFUSION↗
Transport properties of the ''Excitonic Insulator.'' II - Thermal conductivity
Thermal conductivity of excitonic insulators
EXCITON↗
An analysis of the coupled chemically reacting boundary layer and charring ablator. Part 4 - A unified approximation for mixture transport properties for multicomponent boundary-layer applications
Bifurcation approximation for binary and thermal diffusion coefficients, mixture viscosity, and thermal conductivity of laminar boundary layer
Bartlett, E. P.↗
A study of gas solubilities and transport properties in fuel cell electrolytes Semiannual report, 1 Mar. - 31 Aug. 1968
Fuel cell electrolyte properties - solubility of hydrogen and oxygen in KOH and LiOH, diffusivity of oxygen and hydrogen in KOH, and density and vapor pressure of KOH and LiOH
Walker, R. D., Jr.↗
Selection of the intermolecular potential. II - From data of state and transport properties taken in pairs.
Intermolecular potential function relation to individual macroscopic properties extended to simultaneous fit of all possible pair combinations
Hanley, H. J. M.↗
Predicting transport properties of dilute gases.
Viscosity, thermal conductivity and diffusion predicted for dilute nonpolar, polar and mixed gases, discussing methods for rotational relaxation collision numbers and resonant correction
Brokaw, R. S.↗
A survey of the transport properties of helium at high Mach number wind-tunnel conditions
Thermal conductivity and viscosity of helium at high Mach number wind tunnel conditions
Jackson, W. E.↗
A study of gas solubilities and transport properties in fuel cell electrolytes Semiannual report, 1 Sep. 1969 - 28 Feb. 1970
Measurements of diffusion coefficients and vapor pressure in LiOH solutions for determination of gas solubilities in fuel cell electrolytes
Walker, R. D., Jr.↗
A study of gas solubilities and transport properties in fuel cell electrolytes
Fuel cell electrolyte studies on vapor pressures of ternary systems, partial molal volumes of dissolved gases, and diffusion coefficients of gases
Walker, R. D., Jr.↗
Thermodynamic and transport properties and chemical reaction rates for high-temperature air
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Hansen, C. F.↗
A study of gas solubilities and transport properties in fuel cell electrolytes
An analysis of the rate of heat generation on the dissolution of sparingly soluble gas in electrolytes was made, and it leads to the conclusion that the temperature changes to be expected are much too small to be measured with precision owing to the slowness of the gas dissolution. It appears that more accurate gas solubility measurements are the only real hope of improved precision in heats of solution and other thermodynamic properties.
Walker, R. D. J.↗